Method of Drilling Pathways to Mine for Solid Natural Resources from an Elevated Terrain

ABSTRACT

A system and a method are provided for drilling pathways to mine for solid natural resources from an elevated terrain. The system includes a drill bit, at least one reamer, and a diverter. The drill bit allows for drilling into a seam of natural resource that is found within a mountain. The at least one reamer enlarges a transversal access hole that is drilled to access the seam of natural resource. The diverter separates cuttings from any waste material as the cuttings are excavated from the seam of natural resource. There are two methods that can be used to mine for solid natural resources from an elevated terrain. The typical auger method drills transversal access holes directly into the seam of natural resource. The directional engineering auger method drills the transversal access hole from a diagonal wellbore into the seam of natural resource.

The current application is a continuation-in-part (CIP) application of a U.S. non-provisional application Ser. No. 16/917,860 filed on Jun. 30, 2020. The U.S. non-provisional application Ser. No. 16/917,860 is a CIP application of a U.S. non-provisional application Ser. No. 16/396,504 filed on Apr. 26, 2019. The U.S. non-provisional application Ser. No. 16/396,504 is a CIP application of the Patent Cooperation Treaty (PCT) application PCT/IB2017/056705 filed on Oct. 28, 2017. The PCT application PCT/IB2017/056705 claims a priority to the U.S. Provisional Patent application Ser. No. 62/413,285 filed on Oct. 26, 2016.

FIELD OF THE INVENTION

The present invention generally relates to a method of drilling pathways to mine for solid natural resources. In particular, the present invention is a method of drilling pathways to mine for solid natural resources from an elevated terrain.

BACKGROUND OF THE INVENTION

Currently in the coal mining industry, two key methods are used to mine and recover coal reserves:

-   -   1) Strip mining are used to recover surface lignite/bituminous         coal reserves which is effective only to depths of + or −300′         deep; and     -   2) Shaft mines are used to access deeper reserves and usually         recover bituminous coals at depths up to + or −1500′ deep.

Both of the methods are dangerous and under heavy Environmental Protection Agency (EPA) scrutiny for environmental impacts. Strip mines cause a host of environmental issues. Strip mines produce lignite coal which is also called a “dirty coal”, although some strip mines do produce clean coal. The process is very damaging to the environment and requires massive reclamation work to replace the surface area damages.

People in the coal mining industry utilize draglines and shaft mines to recover coal. These people are not privy to actual abilities of oil and gas recovery drilling rigs and associated machinery or practices.

People in the oil and gas recovery industry only see small amounts of coal while drilling and deem it to be a waste product, that comes out of the wellbore in the cuttings. Even during the drilling of coal seams for coal bed methane, the coal is considered a waste product as the main objective is methane gas recovery. The excavated coal is never weighed, measured, or sold. It is destroyed as waste material.

The method of the present invention as presented provides many benefits over current coal mining methods:

-   -   Coal can be drilled in places that a dragline or shaft mine may         not be accessible due to terrain/or climate.     -   Setting up a dragline takes years of prep and destroys thousands         of acres of surface area, necessitating millions of dollars of         environment repair. A drilling rig can mine up to 2600 acres         from one 2-acre site that can be repaired by covering with grass         seed and cause minimal damage to environment.     -   Lignite mines cost many millions of dollars and take years to         set up, while a drilling rig can bring coal to surface within a         week or so after rigging up, again without damaging the         environment and drilling provides “clean coal”     -   The biggest benefit is due to the vast cost to strip mine and         reclamation. Drilling coal is faster, cleaner and cheaper than         strip mining. An estimate is that the coal produced from the         present invention will provide 30% per ton cheaper than buying         and shipping from Wyoming to Texas. An average savings of         hundreds of thousands of dollars per day, essentially cutting         energy fuel cost by 30% on production of electricity.

In addition to these benefits, the method of the present invention circumvents the limitations of conventional mining and oil and gas recovery methods. Using modified oil and gas drilling tools, the method of the present invention allows mining for solid natural resources embedded in very deep formations underground. Whereas, conventional mining methods are limited to depths of 1500′ to 2100′, the method disclosed is capable of mining depths between 500′ to 12000′. Additionally, the solid natural resources are extracted through narrow holes dug exceptionally deep into the earth's crust. This limits the damage done to the environment and obviates the massive reclamation works needed to replace the displaced surface area.

Even though the method of the present invention utilizes relatively narrow wellbores, compared to the oil and gas industry, the wellbores are actually quite large. Whereas in the oil and gas industry, the wellbore is deliberately kept as narrow as possible, the present invention utilizes a reaming process to enlarge the wellbore and to extract the maximum amount of solid natural resources. Further, the number of wellbore in the oil and gas industry are deliberately kept to a minimum. Usually, oil and gas extraction processes attempt to utilize just a single wellbore. In contrast, the present invention utilizes a plurality of lateral holes that are radially distributed around the wellbore. Additionally, the plurality of lateral holes may be constructed at several vertical depths. This allows for extraction of the maximum amount of solid natural resources out of the formations.

The method of the present invention also permits an efficient waste disposal mechanism. More specifically, the plurality of lateral holes need to be plugged after all of the solid natural resources are excavated. Thus, various types of waste materials, such as coal ash, carbon dioxide or solids from exhaust, municipal waste, medical waste, salt water, oil-base mud solids, and/or fracturing water, may be mixed into the plugging material. As a result, the method of the present invention allows of disposal of waste materials deep into the earth's crust which minimizes environmental impact.

The present invention provides two alternative methods for drilling pathways to mine for solid natural resources from an elevated terrain. The elevated terrain is preferably a mountain. The typical auger method drills a transversal access hole directly into a seam of natural resource found within the mountain. The directional engineering auger method drills the transversal access hole from a diagonal wellbore into the seam of natural resource.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a side schematic view of the testing wellbore showing a single horizontal access hole.

FIG. 2 is a top schematic view of the testing wellbore showing the plurality of lateral holes.

FIG. 3 is a side schematic view of the testing wellbore showing the process for drilling a series of desired mining sections.

FIG. 4 is a flow chart showing the order of operation of Step A through Step I.

FIG. 5 is a flow chart showing the sub-processes of Step B.

FIG. 6 is a flow chart showing the sub-processes of Step J through Step K, wherein an EM scanning device is utilized.

FIG. 7 is a flow chart showing the sub-processes of Step J through Step K, wherein a sidewall coring tool is utilized.

FIG. 8 is a flow chart showing the sub-processes of Step I, wherein a plurality of lateral holes is constructed.

FIG. 9 is a flow chart showing the process of mining a series of desired mining sections.

FIG. 10 is a flow chart showing the sub-processes of Step H, wherein the second plugging material is a quantity of waste material.

FIG. 11 is a flow chart showing the sub-processes of Step F, wherein a plurality of reamers is utilized.

FIG. 12 is a flow chart showing the sub-processes of Step E, wherein the drilling mud is compositionally configured.

FIG. 13 is a flow chart showing the sub-processes of Step G, wherein the reamer is provided with a physical extractor.

FIG. 14 is a diagram showing an apparatus used in the method of the present invention.

FIG. 15 is a diagram showing an auger method that contrasts an alternative embodiment of the present invention.

FIG. 16 is a diagram showing a directional engineering auger method that is the alternative embodiment of the present invention.

FIG. 17 is a flowchart illustrating an alternative overall process for the method of the present invention.

FIG. 18 is a flowchart illustrating the subprocess of identifying an external access point for the transversal access hole for the typical auger method.

FIG. 19 is a flowchart illustrating the subprocess of setting the conductor and mounting the diverter.

FIG. 20 is a flowchart illustrating the subprocess for the directional engineering auger method.

FIG. 21 is a flowchart illustrating the subprocess of setting the conductor and mounting the diverter for the directional engineering auger method.

FIG. 22 is a flowchart illustrating the subprocess for drilling a plurality of transversal access holes from the internal access point.

FIG. 23 is a flowchart illustrating the subprocess of reinforcing the diagonal wellbore with the casing.

FIG. 24 is a flowchart illustrating the subprocess of drilling into a series of seams of natural resources.

FIG. 25 is a flowchart illustrating the subprocess of using a measurement device to identify the internal access point.

FIG. 26 is a flowchart illustrating the subprocess of using an electromagnetic (EM) scanning device and a computing device to map the compositional makeup of surrounding lateral area for the diagonal wellbore.

FIG. 27 is a flowchart illustrating the subprocess of filling the transversal access hole with the second plugging material.

FIG. 28 is a flowchart illustrating the subprocess of utilizing a plurality of reamers to enlarge the transversal access hole.

FIG. 29 is a flowchart illustrating the subprocess of using drilling mud to clean the cuttings.

FIG. 30 is a flowchart illustrating the subprocess of using the reamer with a physical extractor.

DETAIL DESCRIPTIONS OF THE INVENTION

All illustrations of the drawings are for the purpose of describing selected versions of the present invention and are not intended to limit the scope of the present invention.

In reference to FIG. 1 and FIG. 4, a first embodiment of the present invention is a method of drilling vertical and horizontal pathways to mine for solid natural resources. Horizontal pathways are used to extract solid natural resources embedded into underground formations. As such, this method maximizes the amount of solid natural resources that can be excavated out of naturally occurring underground formations. The method of the present invention utilizes modified drilling equipment used in the oil and gas drilling industry. In particular, the system used to implement the method of the present invention comprises a drill bit, at least one reamer, a first plugging material 1, and a second plugging material 2 (Step A). The drill bit uses cutting elements mounted onto rotating conical elements that roll across the face of the borehole. This allows the drill bit to create a cylindrical hole in the earth's crust for the discovery and extraction of solid natural resources such as coal, minerals, and/or precious metals. Similarly, the reamer enlarges the borehole and extracts embedded resources from the formations. The first plugging material and the second plugging material are used to backfill a borehole once the resources have been extracted.

An overall process for the present invention begins by drilling a testing wellbore 3 to a specific vertical depth with the drill bit (Step B). The method of the present invention enables mining at exceptionally high vertical depths. The specific vertical depth may be anywhere from 500′ to 12000′, with the possibility of drilling up to 15000′currently being researched. For context, the deepest mine in America today is 2100′. This method also enables mining at an exceptionally shallow vertical depth of 500′. The surrounding lateral area 4 of the testing wellbore includes at least one desired mining section 5 wherein the desired mining section 5 is associated with a corresponding vertical depth. The desired mining section 5 is the area of the formation that contains the desired solid natural resources. Thus, once the testing wellbore is constructed, the testing wellbore provides a conduit for transporting the solid natural resources out of the desired mining section 5 to the surface. The testing wellbore is constructed by drilling a plurality of holes. After the plurality of holes are drilled, a casing is placed into each of the holes. A casing is a large diameter pipe constructed out of a plurality of individual sections that are screwed together. The length of the casing can be adjusted by increasing or decreasing the number of individual sections. Once the casing is inserted into the corresponding hole, cement or similar filling material is pumped into the casing. An opening located at the bottom of the casing allows the cement to fill the gap between the casing and the corresponding hole. This reinforces the hole and prevents the collapse of the sidewalls of formation.

The preferred embodiment of the testing wellbore comprises a conductor hole, a surface hole, and a pilot hole. The conductor hole drilled into the surface of the formation. A conductor casing placed into the conductor hole prevents the loose soil near the surface from caving in and blocking the wellbore. Once the conductor casing is set, a 17½″ surface hole is drilled beneath the conductor casing. The preferable surface hole has a depth of 500′-2300′ which positions the surface hole below the water board depth. Alternately, the surface hole may have a much shallower depth of 500′. This requires drilling through natural aquifers embedded into the formations which increases the chances of contaminating the water supply. As such, the surface casing is placed into the surface hole to protect natural underground aquifers from contamination. More specifically, the surface casing forms a seal between the testing wellbore and the surrounding formations. The preferred pilot hole is a 12¼″ hole that starts below the surface hole and continues to a depth of up to 12,000′. Alternately, the present invention allows for the creation of a pilot hole with a depth of anywhere from 500′ to 12000′. This is especially useful for extracting solid natural resources embedded into very deep or very shallow formations.

After the pilot hole is created, the testing wellbore is inspected for solid natural resources such as coal and precious metals. This is achieved by inspecting the material composition of the formations at a plurality of vertical depths. The vertical depths of the most promising formations are the desired mining sections 5. This process results in at least one desired mining section 5 and the corresponding vertical. The method of the present invention then entails creation a new bottom end for the testing wellbore by filling the testing wellbore up to an offset distance from the corresponding vertical depth with the first plugging material (Step C). More specifically, the pilot hole is plugged up 500′-1000′ above the desired mining section 5 with the first plugging material. In this case, the first plugging material may be cement. Once the cement is cured the new bottom elevation is now the Kick Off Point (KOP). The drill bit that fits into the pilot casing is lowered into the pilot casing, and the horizontal drilling process begins. Moreover, the drill bit is fitted onto a steering tool that allows the drill bit to change direction while drilling through the formation. As such, the drill bit can drill a curved access hole 9 from the new bottom end into the desired mining section 5 with the drill bit (Step D). This positions the drill bit horizontal in relation to the testing wellbore and in an ideal position to penetrate the planar formations. Planar formations, as herein referred to, are layers of solid natural resources embedded into the natural soil formations found in the earth's crust. The at least one desired mining section 5 are planar formations composed of mainly of the solid natural resources. Thus, to extract the solid natural resources, at least one horizontal access hole 7 is drilled into the desired mining section 5 (Step E). The horizontal access hole penetrates several thousand feet into the planar formations to extract the maximum amount of solid natural resources. Since the planar formations usually incline no more than 1°-2° the horizontal access hole can access the planar formation while remaining horizontal. The at least one horizontal access hole can be a plurality of horizontal access holes that branch out of the curved access hole.

Further, the process of extracting the solid natural resources from the horizontal access hole also involves enlarging the horizontal access hole with the reamer (Step F). The preferred reamer is retractably mounted behind the drill bit, extending only during the enlarging process. In the extended position, the reamer has a larger diameter than the drill bit thereby allowing the horizontal access hole to be enlarged. Accordingly, once extended, the reamer starts rotating and is slowly pulled out of the horizontal access hole. As the reamer slowly recedes out of the horizontal access hole, the reamer grinds the surrounding formation into a slurry. The slurry contains cuttings of the solid natural resources that are to be excavated. This serves as the principal mechanism for excavating cuttings from the desired mining section 5 through the horizontal access hole during Step E and/or Step F (Step G). As the slurry gets pumped to the surface, it carries the cuttings out of the testing wellbore and to the surface for retrieval. Once all of the solid natural resources are excavated out of the horizontal access hole, the horizontal access hole is plugged close with the second plugging material (Step H). The second plugging material fills the horizontal access hole until it reaches the new bottom end. Once the horizontal access hole is plugged, Step D through Step H are reiterated to create a plurality of lateral holes 8, wherein each lateral hole is the curved access hole and the horizontal access hole in Step D through Step H (Step I). The plurality of lateral holes penetrates the planar formations at multiple points to excavate the maximum amount of solid natural resources. As such, the plurality of lateral holes branches out of the curved access hole. As can be seen in FIG. 2 and FIG. 6, this is achieved by radially positioning the lateral holes around the testing wellbore during Step I.

Referring to FIG. 10, an embodiment of the present invention provides a method of sustainably disposing of unwanted waste material into the ground into the freshly drilled underground lateral holes. This involves providing a quantity of waste material, and integrating the quantity of water material into the second plugging material. In particular, the quantity of waste materials can be, but is not limited to, coal ash, carbon dioxide or solids from exhaust, municipal waste, medical waste, salt water, oil-base mud solids, fracturing water, coal refuse, or other materials.

Referring to FIG. 5, the process of determining the desired mining section 5, as explained in Step B, requires providing a measurement device. The measurement device is used in mapping a compositional makeup of the surrounding lateral area by probing the testing wellbore at a series of vertical depths with the measurement device during Step B. More specifically, the measurement device is lowered into the pilot hole of the testing wellbore. As the measurement device travels along length of the pilot hole, the compositional makeup of the surrounding lateral area is inspected at different vertical depths. This is followed by identifying the desired mining section 5 within the compositional makeup of the surrounding lateral areas during Step B, wherein the corresponding vertical depth of the desired mining section 5 is one depth within the series of vertical depths. More specifically, only some of the series of vertical depths may contain promising amounts of solid natural resources. Thus, the desired mining location are the vertical depths that have the most amounts of solid natural resources. In particular, the desired mining section 5 can be composed of an all solid natural resource selected from, but not limited to, bituminous coal, sub-bituminous coal, anthracite, gold, platinum, silver, uranium, lithium, gemstones or diamonds, and/or rare-earth minerals.

Referring to FIG. 6, in one embodiment of the mapping process, the measurement device is an electromagnetic (EM) scanning device and a computing device. The EM scanning device measures the magnetic resistivity of the formations at different vertical depths to determine their exact material compositions. As such, mapping the formations requires activating the EM scanning device at each vertical depth and receiving the sensing data with the EM scanning device at each vertical depth. This allows for the creation of highly detailed mapping data by compiling the sensing data at each vertical depth into the compositional makeup of the surrounding lateral area with the computing device. Thus, the desired mining sections 5 can be selected by reviewing the data from the compositional makeup.

Referring to FIG. 7, in another embodiment of the mapping process, the measurement device is a sidewall coring tool. Alternately, a sidewall logging tool may also be utilized. This requires excavating a core sample at each vertical depth with the sidewall coring tool. The core sample from each vertical depth is retrieved from the testing wellbore and analyzed on the surface for its compositional data. Detailed mapping data is created by compiling the compositional data at each vertical depth into the compositional makeup of the surrounding lateral area. Similar to the other embodiment of the mapping process, the desired mining section/s 5 is determined using this mapping data.

Referring to FIG. 3 and FIG. 9, the mapping process locates several promising formations at different vertical depths. In many cases, there may be more than one desired mining sections 5. Thus, an embodiment of the present invention may involve a series of desired mining sections 5, wherein a vertically-lowest section is ordered first in the series of desired mining sections 5, and wherein a vertically-highest section is order last in the series of desired mining sections 5. Since the horizontal access hole must be plugged after being excavated, the vertically-lowest section from the series of desired mining sections 5 must be drilled first. As such, the process of excavating a series of desired mining section 5 requires executing a plurality of iterations for Step C through Step I for the series of desired mining sections 5, wherein the plurality of iterations begins with the vertically-lowest section and ends with the vertically-highest section. Each iteration is performed on one of the series of desired mining sections 5. For example, the first of the plurality of iterations is performed on the vertically-lowest section form the series of desired mining sections 5. Once the vertically-lowest section is completely excavated, pilot hole is plugged 1000′ above the second lowest section, and the second lowest section is excavated. Alternately, if the second lowest section lies above the 1000′, the pilot hole may only be partially plugged up to the second lowest section. The vertically-highest section is the last in the series of desired mining sections 5 to be excavated, once all the desired mining sections 5 below this are used. This process continues until all the series of desired mining sections 5 are excavated, and the pilot hole is completely plugged with the second plugging material.

Referring to FIG. 11, in order to excavate more cuttings from the horizontal access hole, the present invention uses a plurality of reamers, wherein each reamer is configured with a successively larger boring diameter. A larger diameter reamer can grind a greater amount of the planar formations, than a smaller diameter reamer. This increases the number of cuttings being excavated out of the horizontal access hole. Thus, Step F is repeated with the successively larger boring diameter of each reamer in order to incrementally enlarge the horizontal access hole. More specifically, the plurality of reamers travels through the single horizontal access hole, and incrementally enlarges the diameter of the horizontal access hole. As the horizontal access hole is slowly enlarged, the amount of solid natural resources being excavated increases. This process is then repeated for the plurality of lateral holes to maximize the excavation volume out of the planar formations.

Referring to FIG. 12, in one embodiment for the excavation process, the present invention uses a drilling mud for Step D and Step E. One or more pumps located at the surface circulate the drilling mud into and out of the testing wellbore. The drilling mud is compositionally configured to accommodate for excavating the cuttings from the desired mining section 5 during Step G. More specifically, the drilling mud may be compositionally configured to dissolve the surrounding formation while leaving the cuttings completely intact. The drilling mud is pumped to the drill bit and sprayed on the face of the borehole. This softens the borehole and allows the drill bit to drill through the formation. The drilling mud is also pumped to the reamer as the reamer enlarges the horizontal access hole. This allows for mixing the cuttings from the desired mining section 5 into the drilling mud during Step E and Step F and allows for extracting the cuttings from the desired mining section 5 from the drilling mud during Step G as the drilling mud is recirculated above ground. More specifically, as the drilling mud is pumped out of the reamer, the drilling mud transports the cuttings to the surface for retrieval.

Referring to FIG. 13, in another embodiment for the excavation process, the present invention uses a reamer configured with a physical extractor. This obviates the need to suck the cuttings out of the testing wellbore along with the drilling mud. Instead, this involves collecting the cuttings from the desired mining section 5 out of the horizontal access hole with the physical extractor or drilling fluids as the reamer is pulled out of the horizontal access hole.

The present invention has been field tested in a well-site and proven to effectively produce coal in commercial quantities under actual “field conditions”. The field test was conducted in Harthstone Formation in Oklahoma which consists of an Upper Hartshorne Coal, shale layer, Upper Hartshorne Sandstone, shale layer, Lower Hartshorne Coal, shale layer, and a Lower Hartshorne Sandstone. The Harthstone formation is part of the larger Arkoma basin which has a minimum areal extent of 8,470 mi².

The field test was conducted in an existing well site—the Dustin 1H-15 well site. The Dustin 1H-15 well was chosen as a desirable candidate to demonstrate the innovation technologies employed in the present invention. While the known 2.5 to 4.5-foot thickness of the target seam was neither optimal for either staying in-seam in the drilling operation, nor optimal for higher coal production volume; nevertheless, the relatively thin seam afforded an opportunity to demonstrate that method of the present invention could stay in-seam and could routinely produce commercial volumes of coal from seam thicknesses generally deemed too thin and uncommercial for most of today's mining methods.

Further, the Dustin 1H-15 well site has a known sandstone floor that is good for keeping the drill bit in the coal seam; although the shale ceiling could have been problematic. As such, the ability of drill bit to stay totally in the 2.5 to 4.5-foot coal seam while drilling the lateral holes, especially with a ceiling that could easily have caused problems if contacted, strongly indicates of the ability to produce commercial quantities of coal from seams so thin as to normally be ignored.

Drill-mining of the well site proved to be a success with the recovery of commercially-viable quantities of the coal. Drill-mining metric of minutes per ton was monitored intermittently throughout the reaming operations. Initial recovery was around 12 minutes per ton which improved to 2 to 3 minutes per ton by the end of the reaming operations. The total expected recovery, based on displacement, was calculated to be approximately 240 tons, but actual recovery was close to 500 tons.

The field test yielded valuable conclusions and lessons about the viability of the present invention in commercial coal mining operations. More specifically, it proved that the method of the present invention allows “drilling for coal” at depths of up to 12,000 feet, thereby making possible geometric increases in reserves. The enormous economic upside of a significantly enhanced reserve base should substantially outweigh the cost of drilling to deeper depths.

In another embodiment of the present invention and in reference to FIGS. 15 through 30, the present invention is a system and method for drilling pathways to mine for solid natural resources from an elevated terrain. In further detail, natural resources can be mined by drilling from the surface of an elevated terrain into a seam of natural resource in a typical auger embodiment or by drilling approximately up to 500 feet into the elevated terrain and then horizontally into the seam of natural resource in a directional engineering auger embodiment. With reference to FIG. 17, the system of the present invention includes a drill bit, at least one reamer, and at least one diverter (Step A). As in the first embodiment, the drill bit uses cutting elements mounted onto rotating conical elements that roll across the face of a borehole. This allows the drill bit to create a cylindrical hole in the earth's crust for the discovery and extraction of solid natural resources such as coal, minerals, and/or precious metals. Similarly, the reamer enlarges the borehole and extracts embedded resources from the formations. The diverter separates excavated solid natural resources from any waste material that is retrieved through the drilling process. Further, the present invention requires at least one seam of natural resource within a mountain (Step B). The seam of natural resource is composed of a material selected from the group consisting of: bituminous coal, sub-bituminous coal, anthracite, gold, platinum, silver, uranium, lithium, gemstones or diamonds, and a rare-earth mineral. The present invention is preferably for use on elevated terrain such as, but not limited to, mountains.

With reference to FIG. 17, the method of the present invention follows an overall process in order to drill pathways to mine for solid natural resources from an elevated terrain. First, at least one transversal access hole is drilled into the seam of natural resource with the drill bit (Step C). The transversal access hole allows mining of the solid natural resource that is deposited in the seam of natural resource. Then, the transversal access hole is enlarged with the reamer (Step D). Similarly to the first embodiment, the preferred reamer is retractably mounted behind the drill bit, extending only during the enlarging process. In the extended position, the reamer has a larger diameter than the drill bit thereby allowing the horizontal access hole to be enlarged. Accordingly, once extended, the reamer starts rotating and is slowly pulled out of the transversal access hole. As the reamer slowly recedes out of the transversal access hole, the reamer grinds the surrounding formation into a slurry. The slurry contains cuttings of the solid natural resources that are to be excavated. This serves as the principal mechanism for excavating cuttings from the seam of natural resource through the transversal access hole during Step C and/or Step D through the diverter (Step E). As the slurry gets pumped to the surface, it carries the cuttings out of the transversal access hole. Further, the cuttings pass through the diverter in order to be separated from any waste material.

In the typical auger embodiment of the present invention and in order for the most optimal transversal access hole to be drilled, the following subprocess is executed. With reference to FIGS. 15 and 18, the mountain is surveyed in order to identify at least one external access point for the seam of natural resource before Step C. The external access point is an area on which a drilling rig can be set up in order to optimally the transversal access hole. The transversal access is initiated at the external access point with the drill bit during Step C. Thus, the most optimal transversal access hole is drilled.

In order to prepare for the cuttings to be efficiently excavated and with reference to FIG. 19, the following subprocess is executed. The present invention includes a conductor with the drill bit. The conductor with the drill bit is part of an overall drilling rig used for the present invention. The conductor is a drilling pipe wherein flow lines are installed in order to excavate cuttings from the seam of natural resource. The conductor is set within the transversal access hole during Step C. This positions the conductor to be a conduit for the cuttings when being excavated from the seam of natural resource. Moreover, the diverter is operatively mounted to the conductor after Step C, external to the transversal access hole. The cuttings flow from seam of natural resource, through the conductor, and through the diverter in order to be separated from any waste material.

In order for the directional engineering auger embodiment of the present invention to be processed, the following steps are executed. With reference to FIGS. 16 and 20, the present invention includes a first plugging material (Step F). The first plugging material is preferably cement. A desired area of the mountain is flattened into a drilling pad (Step G). Step G is executed in order to create ample area for the drilling rig to be set up. A diagonal wellbore is drilled from the drilling pad through the internal access point with the drill bit (Step H). The diagonal wellbore allows access to the internal access point, and, therefore, provides a starting point to access the seam of natural resource. The mountain is surveyed in order to identify at least one internal access point for the seam of natural resource (Step I). The internal access point is an area within the mountain that leads to a seam of natural resource. Similarly to the first embodiment of the present invention, a new bottom end for the diagonal wellbore is created by filling the diagonal wellbore up to the internal access point with the first plugging material (Step J). Once the first plugging material, cement, is cured the new bottom elevation is now the Kick-Off Point (KOP). The drill bit is fitted onto a steering tool that allows the drill bit to change direction while drilling through the formation. As such, the drill bit can drill from the internal access point into the transversal access hole during Step C (Step K). This positions the drill bit horizontal in relation to the diagonal wellbore and in an ideal position to penetrate the planar formations. Planar formations, as herein referred to, are layers of solid natural resources embedded into the natural soil formations found in the earth's crust. The seam of natural resource is a planar formation composed of mainly of the solid natural resource. The transversal access hole penetrates into the planar formations to extract the maximum amount of solid natural resources. Since the planar formations usually incline no more than 1°-2°, the transversal access hole can access the planar formation while remaining horizontal.

In order to prepare for the cuttings to be efficiently excavated for the directional engineering auger method and with reference to FIG. 21, the following subprocess is executed. The conductor is set within the diagonal wellbore during Step H. This positions the conductor to be a conduit for the cuttings when being excavated from the seam of natural resource. Moreover, the diverter is operatively mounted to the conductor after Step H, external to the diagonal wellbore. The cuttings flow from seam of natural resource, through the conductor, and through the diverter in order to be separated from any waste material.

In order to optimize the amount of solid natural resources being excavated and with reference to FIG. 22, the at least one transversal access hole is provided as a plurality of transversal access holes. The plurality of transversal access holes is drilled in a branching pattern from the internal access point with the drill bit during Step K. In more detail, drilling the plurality of transversal access holes allows an optimal amount of natural resources to be extracted from the seam of natural resource.

In order to prevent the diagonal wellbore from caving in on itself and with reference to FIG. 23, the present invention includes a casing. The casing is a pipe assembly preferably made of metal. The diagonal wellbore is reinforced with the casing after Step I. Thus, the diagonal wellbore is prevented from caving in on itself. Further, in Step J, it is the casing that is filled with the first plugging material.

Similar to the first embodiment and with reference to FIG. 24, the directional engineering embodiment of the present invention may involve a series of seams of natural resources, wherein a vertically-lowest seam is ordered first in the series of seams of natural resources, and wherein a vertically-highest seam is ordered last in the series of seams of natural resources. Since the transversal access hole must be plugged after being excavated, the vertically-lowest seam from the series of seams of natural resources must be drilled first. As such, the process of excavating a series of seams of natural resources requires executing a plurality of iterations for Step J through Step K for the series of seams of natural resources, wherein the plurality of iterations begins with the vertically-lowest seam and ends with the vertically-highest seam. Each iteration is performed on one of the series of seams of natural resources. For example, the first of the plurality of iterations is performed on the vertically-lowest seam from the series of seams of natural resources. Once the vertically-lowest seam is completely excavated, pilot hole is plugged a certain distance above the second lowest seam, and the second lowest seam is excavated. Alternately, if the second lowest seams lies above the certain distance, the pilot hole may only be partially plugged up to the second lowest seam. The vertically-highest seam is the last in the series of seams of natural resources to be excavated, once all the seams of natural resources below this are used. With reference to FIG. 27, this process continues until all the series of seams of natural resources are excavated, and the pilot hole is completely plugged with a second plugging material. A quantity of waste material is integrated into the second plugging material. The quantity of waste material is selected from a group consisting of: coal ash, carbon dioxide or solids from exhaust, municipal waste, medical waste, salt water, oil-base mud solids, fracturing water, coal refuse, and combinations thereof. The transversal access hole is filled with the second plugging material after Step E in order to conceal any holes that were drilled during the overall process.

In order to identify the internal access point from the diagonal wellbore and with reference to FIG. 25, the present invention may further include a measurement device. The measurement device is used in mapping a compositional makeup of the surrounding lateral area by probing the diagonal wellbore at a series of depths with the measurement device during Step I. More specifically, the measurement device is lowered into the pilot hole of the diagonal wellbore. As the measurement device travels along the length of the pilot hole, the compositional makeup of the surrounding lateral area is inspected at different depths. This is followed by identifying the internal access point within the compositional makeup of the surrounding lateral areas during Step I, wherein the internal access point is one depth within the series of depths. More specifically, only some of the series of depths may contain promising amounts of solid natural resources. Thus, the internal access point is located are the depths that have the most amounts of solid natural resources.

Referring to FIG. 26, in one embodiment of the mapping process, the measurement device is an electromagnetic (EM) scanning device and a computing device. The EM scanning device measures the magnetic resistivity of the formations at different depths to determine their exact material compositions. As such, mapping the formations requires activating the EM scanning device at each depth and receiving the sensing data with the EM scanning device at each depth. This allows for the creation of highly detailed mapping data by compiling the sensing data at each depth into the compositional makeup of the surrounding lateral area with the computing device. Thus, the internal access point can be selected by reviewing the data from the compositional makeup.

Similar to the first embodiment and with reference to FIG. 28, the typical auger embodiment and the directional engineering embodiment of the present invention uses a plurality of reamers, wherein each reamer is configured with a successively larger boring diameter. A larger diameter reamer can grind a greater amount of the planar formations, than a smaller diameter reamer. This increases the number of cuttings being excavated out of the horizontal access hole. Thus, Step D is repeated with the successively larger boring diameter of each reamer in order to incrementally enlarge the transversal access hole. More specifically, the plurality of reamers travels through the single transversal access hole, and incrementally enlarges the diameter of the transversal access hole. As the transversal access hole is slowly enlarged, the amount of solid natural resources being excavated increases. This process is then repeated for the plurality of lateral holes to maximize the excavation volume out of the planar formations.

Similar to the first embodiment and with reference to FIG. 29, the typical auger embodiment and the directional engineering embodiment of the present invention uses a drilling mud for Step C and Step D. One or more pumps located at the surface circulate the drilling mud into and out of the transversal access hole. The drilling mud is compositionally configured to accommodate for excavating the cuttings from the seam of natural resource during Step E. More specifically, the drilling mud may be compositionally configured to dissolve the surrounding formation while leaving the cuttings completely intact. The drilling mud is pumped to the drill bit and sprayed on the face of the borehole. This softens the borehole and allows the drill bit to drill through the formation. The drilling mud is also pumped to the reamer as the reamer enlarges the transversal access hole. This allows for mixing the cuttings from the seam of natural resource into the drilling mud during Step C and Step D and allows for extracting the cuttings from the seam of natural resource from the drilling mud during Step E as the drilling mud is recirculated above ground. More specifically, as the drilling mud is pumped out of the reamer, the drilling mud transports the cuttings to the surface for retrieval.

Similar to the first embodiment and with reference to FIG. 30, in the typical auger embodiment and the directional engineering embodiment for the excavation process, the present invention uses a reamer configured with a physical extractor. This obviates the need to suck the cuttings out of the seam of natural resource along with the drilling mud. Instead, this involves collecting the cuttings from the seam of natural resource out of the transversal access hole with the physical extractor or drilling fluids as the reamer is pulled out of the transversal access hole.

Although the invention has been explained in relation to its preferred embodiment, it is to be understood that many other possible modifications and variations can be made without departing from the spirit and scope of the invention as hereinafter claimed. 

What is claimed is:
 1. A method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method comprising steps of: (A) providing a drill bit, at least one reamer, and at least one diverter; (B) providing at least one seam of natural resource within a mountain; (C) drilling at least one transversal access hole into the seam of natural resource with the drill bit; (D) enlarging the transversal access hole with the reamer; and (E) excavating cuttings from the seam of natural resource through the transversal access hole during step (C) and/or (D) through the diverter.
 2. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 1 comprising steps of: surveying the mountain in order to identify at least one external access point for the seam of natural resource before step (C); and initiating the transversal access hole at the external access point with the drill bit during step (C).
 3. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 2 comprising steps of: providing a conductor with the drill bit; setting the conductor within the transversal access hole during step (C); and operatively mounting the diverter to the conductor after step (C), external to the transversal access hole.
 4. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 1 comprising steps of: (F) providing a first plugging material; (G) flattening a desired area of the mountain into a drilling pad; (H) drilling a diagonal wellbore from the drilling pad with the drill bit; (I) surveying the mountain in order to identify at least one internal access point for the seam of natural resource during step (H); (J) creating a new bottom end for the diagonal wellbore by filling the diagonal wellbore up to the internal access point with the first plugging material; and (K) drilling from the internal access point into the transversal access hole with the drill bit during step (C).
 5. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 4 comprising steps of: providing a conductor with the drill bit; setting the conductor within the diagonal wellbore during step (H); and operatively mounting the diverter to the conductor after step (H), external to the diagonal wellbore.
 6. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 4 comprising steps of: providing the at least one transversal access hole as a plurality of transversal access holes; and drilling the plurality of transversal access holes in a branching pattern from the internal access point with the drill bit during step (K).
 7. The method of drilling pathways to mine for solid natural resources from an elevated terrain, wherein the method as claimed in claim 4 comprising steps of: providing a casing; and reinforcing the diagonal wellbore with the casing after step (H).
 8. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 4 comprises the steps of: providing the at least one seam of natural resource as a series of seams of natural resource, wherein a vertically-lowest seam is ordered first in the series of seams of natural resource, and wherein a vertically-highest seam is ordered last in the series of seams of natural resource; and executing a plurality of iterations for steps (J) through (K) for the series of desired mining sections, wherein the plurality of iterations begins with the vertically-lowest seam and ends with the vertically-highest seam.
 9. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 4 comprises the steps of: providing a measurement device; mapping a compositional makeup of surrounding lateral area for the diagonal wellbore by probing the diagonal wellbore at a series of depths with the measurement device during step (I); and identifying the internal access point within the compositional makeup of the surrounding lateral area, wherein the internal access point is one depth within the series of depths.
 10. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 9 comprises the steps of: providing an electromagnetic (EM) scanning device and a computing device as the measurement device; activating the EM scanning device at each depth; receiving sensing data with the EM scanning device at each depth; and compiling the sensing data at each diagonal depth into the compositional makeup of the surrounding lateral area with the computing device.
 11. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 1, wherein the seam of natural resource is composed of a material selected from the group consisting of: bituminous coal, sub-bituminous coal, anthracite, gold, platinum, silver, uranium, lithium, gemstones or diamonds, and a rare-earth mineral.
 12. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 1 comprises the steps of: providing a second plugging material, wherein a quantity of waste material is integrated into the second plugging material; and filling the transversal access hole with the second plugging material after step (E).
 13. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 12, wherein the quantity of waste material is selected from a group consisting of: coal ash, carbon dioxide or solids from exhaust, municipal waste, medical waste, salt water, oil-base mud solids, fracturing water, coal refuse, and combinations thereof.
 14. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 1 comprises the steps of: providing the at least one reamer as a plurality of reamers, wherein each reamer is configured with a successively larger boring diameter; and repeating step (D) with the successively larger boring diameter of each reamer in order to incrementally enlarge the transversal access hole.
 15. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 1 comprises the steps of: providing a drilling mud used in steps (C) and (D); compositionally configuring the drilling mud to accommodate for excavating the cuttings from the seam of natural resource during step (E); mixing the cuttings from the seam of natural resource into the drilling mud during step (C) and (D); and extracting the cuttings from the seam of natural resource from the drilling mud during step (E) as the drilling mud is recirculated above ground.
 16. The method of drilling pathways to mine for solid natural resources from an elevated terrain, the method as claimed in claim 1 comprises the steps of: providing the reamer configured with a physical extractor; and collecting the cuttings from the seam of natural resource out of the transversal access hole with the physical extractor as the reamer is pulled out of the transversal access hole during step (E). 